This project develops digital weaving techniques with earth-fiber composites to create structural lattice structures.
Traditionally, textiles for wearables and architectural building interiors utilize mostly natural fibers; however, with the introduction of petroleum and synesthetic yarns, manufacturing practices have been shifted to synthetic fiber reinforcement that produces a higher carbon footprint, uses limited resources, and is not biodegradable. Looking at ubiquitous natural resources, this line of research investigates the use of geo- and bio-based raw materials as new sources of lattice textiles and structures through a range of weaving practices. Geo-materials include clay-rich soils and other geological products; biomaterials include vegetable fibers and other biopolymers and polysaccharide additives.
Working with advanced manufacturing techniques such as 3D printing, this work categorizes weaving practices, followed by extrusion experiments using earth-fiber additive mix-designs. The results are investigated for their structural integrity on planar-level extrusions for sustainable and versatile axial flexibility transformations.
Ultimately, the goal of this research is to catalyze the future of bio-based woven structures and aims to regenerate weaving patterns with geo-bio composites to create an earth-fiber textile structured by digital extrusion. This research was presented at the 2023 Bio-Calibrated: Tools and Techniques of Biodesign Practices Symposium at Central Saint Martins, University of the Arts London:
Perez K., Ben-Alon L. (2023). Traditional Textile Integrity and Avenues for Bio-Based Digital Weaving. Biocalibrated: Tools and Techniques for Biodesign Practices Symposium. Forthcoming in November 30th, University of the Arts London.